Research Interests: Radiation oncology, brachytherapy, gynecology, nanoparticles, radiopharmaceuticals

Research Interests: soft materials at the nanosclae, polymers, thin films, dynamics of glassy materials

Research Interests: neuromorphic materials, artificial synapses, smart sensors, ferroelectric tunnel junctions, quantum mechanical tunneling, charge transport across interfaces, structure-function relations in materials, near-field spectroscopy, scanning probe microscopy, plasmonic, strain imaging

Research Interests: electron spectroscopy of quantum materials, infrared nanophotonics, transmission electron microscopy

Research Interests: Radiation Therapy, Radiation Dosimetry, Treatment Planning and Delivery Quality Assurance, Treatment Technique Development

Research Interests: Micro- and nanostructured materials, biomolecular interactions, single molecule imaging and tracking, super-resolution fluorescence microscopy, biosensors.

Research Interests:  include the application of the regulatory framework in novel radiopharmaceuticals, in-vivo dosimetry, and radiation protection in nuclear facilities.

Research Interests: magnetic resonance imaging (MRI), brain injury, musculoskeletal imaging, cancer

Research interests: Nuclear materials and energy, SMRs, radioisotopes, isotope production, and cyclotrons.

Research Interests: Ancient Egyptian astronomy (observational methods, timekeeping, charts, texts, and instruments). Pedagogical research (science teaching and learning in HE).
Dr. Sarah Symons is an Associate Professor in the School of Interdisciplinary Science and an associate member of the Departments of History and Physics & Astronomy. She was educated in the UK, gaining a BSc Honours Degree in Mathematics and Astronomy and PhD in History of Astronomy in the Department of Mathematics and Computer Science, University of Leicester. She began her career as an academic pedagogical project manager in the UK. Since arriving at McMaster, she has been a pedagogical designer and teaching professor in the Honours Integrated Science Program and has also helped to develop the SCIENCE nexus of courses in the Faculty of Science.

Her major teaching interests are centred around science literacy and scientific skills development in science courses big and small. Sarah’s involvement in scholarship of teaching and learning includes pedagogical research in science education, educational consultancy focussing on active learning and assessment design, and collaborative projects with teaching-stream and interdisciplinary faculty internationally. She was awarded a MIIETL Impact Fellowship in 2015 and recently her skills in faculty development and managing curriculum change have been recognised by a visiting professorship at the University of Tokyo. Sarah’s research in history of astronomy concentrates on astronomical texts and instruments from ancient Egypt, investigating how the sky was perceived and described up to 4500 years ago.

She spends time “excavating” in museum basements around the world looking at fragments of astronomical documents, then translating, categorising, and publishing the results. She incorporates her interest in the role of astronomy in society in her outreach work with McMaster’s William J. McCallion Planetarium, of which she is the Director. The Planetarium, part of the Department of Physics & Astronomy, offers around 300 live educational shows per year to audiences of students, societies, and the local community on a variety of astronomical topics.

Research Interests: Development of neutron sources, beam lines, and instrumentation

I am interested in the synthesis and characterization of new magnetic oxides. As a former faculty member of Florida State University, I am currently supervising several graduate students in my synthesis and crystal growth lab there. I am also in the process of establishing a solid state chemistry lab at the University of Winnipeg.

I am primarily interested in what are called strongly correlated electron systems, or materials which have unusual magnetic or electrical behavior. These include functional materials, such as new solid state batteries, multiferroics, or superconductors, but they also include systems of theoretical interest, such as geometrically frustrated magnets, low dimensional compounds, and heavy fermion compounds. As an experimentalist, my main methods of characterization include diffraction techniques such as x-ray scattering and neutron scattering, but the bulk of my time is spent on the synthesis and crystal growth of these new materials here at the University of Winnipeg.